I have setup VSX, my ISL, all my VLANs, a VLAN interface on each switch and and active-active gateway which im using as my Default GW for each network. I have a MCLAG setup which is connected to a 2530 which has a trunk port with LACP enabled and all VLANS passing. When im untagged (access interface) say on VLAN 56 (my server network) on the 2530 or even the 8320's i can ping my own gateway but i cant ping say my ESXI host which is on VLAN 60 or any other gateway/vlan interface for that matter
My routing table looks ok, my VLAN interfaces are all up, i can ping all my active-active gatways from both switches when connecting via console or the mgmt interface. Im not sure if im missing anything glaringly obvious with my vlanning... my brain is melting at the moment for various reasons!!
It hasnt got a default route at the minute, it will be the customers firewall when in place on site. Does it need a default route out if i dont need to get to the internet or outside my core networks at the minute? I should still be able to route to the the other networks that are in my routing table right? which i cant.
That is correct. Im using the active gateways as my default gateway on all my hosts. If my devices are on the same VLAN (untagged) they can ping each other. If they're in a different vlan on a different network they cannot ping each other. Its as if my routing table is non existent and its just dropping the packet as there is no default route or anything. I mean im just trying to create some simple inter-vlan routing, how hard can it be!?
I've got a simple vigor router out which im going to setup to simulate the customers firewall and make it the default route for the switch. Still i didnt think id need to do this to get inter-vlan routing working.
I was running that, but i upgraded to the latest as support told me to because the serial port was faulty, in the end it was hardware related. Ive only ever used 10.02.00010 when ive had VSX and vlan interfaces in play.
as per always this issue was something really stupid. My laptop was doing some weird routing. From the esxi host i could ping every gateway and even my laptop... once id turned the windows firewall off. Derp!
The 8320A provides transparent and truthful reproduction, and with its wide uncoloured sweet spot you are always in a position to make accurate, reliable mix decisions. The recycled aluminium design of it rear-ported enclosure not only provides staggering LF extension from such a compact unit, its curved form and integrated waveguide guarantees precise, detailed performance both on and off axis.
As a Smart Active Monitor, the 8320A integrates closely with our GLM software via which it can be configured and calibrated for your listening environment, compensating for detrimental room influences to create a truly optimised monitoring solution from mono to immersive. So whether you work in challenging acoustic spaces or need a mobile solution that can quickly adapt to different rooms, the 8320A is your compact but clever monitoring companion.
Now, more than ever, audio productions are engineered in tighter, more confined working environments. This increases acoustic problems and lowers the reliability of monitoring. At the same time, an audio engineer's need to trust a reliable and precise monitoring system that reproduces sound neutrally and without distortion has not changed.
Audio electronic crossovers allow the audio signal to be split into separate frequency bands that are separately routed to individual power amplifiers, which are then connected to specific transducers optimised for a particular frequency band.
Genelec analogue active crossover filters contain electronic components that are operated at low signal levels suitable for power amplifier inputs. This is in contrast to passive crossovers that operate at the high signal levels of the power amplifier's outputs, having to handle high currents and, in some cases, high voltages.
Using the active approach enables frequency response adjustments and optimisation of the full loudspeaker system, placed in various room environments, without expensive external equalisers. The end result is a simpler, more reliable, efficient, consistent and precise active loudspeaker system.
The DCW technology shapes the emitted wavefront in a controlled way, allowing predictable tailoring of the directivity (dispersion) pattern. To make the directivity uniform and smooth, the goal is to limit the radiation angle so that the stray radiation is reduced. It results in excellent flatness of the overall frequency response as well as uniform power response. This minimises early reflections and provides a wide and controlled listening area achieving accurate sound reproduction on and off-axis.
Minimised early reflections and controlled, constant directivity have another important advantage: the frequency balance of the room reverberation field is essentially the same as the direct field from the monitors. As a consequence, the monitoring system's performance is less dependent on room acoustic characteristics.
Sound image width and depth, critical components in any listening environment, are important not only for on-axis listening, but also off-axis. This accommodates not only the engineer doing their job, but also others in the listening field, as is so often the case in large control rooms.
Although it is advisable to use sturdy and stable floor stands together with free-standing loudspeakers, a very common solution is to place loudspeakers directly on a table or on a console meter bridge.
This causes several detrimental side effects. Aiming of the loudspeaker axis towards the listener is rarely implemented, also, unwanted mechanical vibration do propagate from the loudspeaker to the mounting surface, and first order reflection on the work surface causes comb filtering and hence ripples in the frequency response.
In order to improve the flatness of the frequency response and the power response of free standing loudspeaker systems, Genelec have designed a highly innovative enclosure optimized to match the properties of the monitor drivers, featuring rounded edges, and gently curved front and sides. In addition to achieving an unsurpassed flatness of the frequency response, the enclosure having minimum diffractions yields superb sound stage imaging qualities.
Audio electronic crossovers allow to split the audio signal into separate frequency bands that can be separately routed to individual power amplifiers, which are then connected to specific transducers optimised for a particular frequency band.
The protection circuitry prevents driver failures by detecting signal levels, and in case of sudden peaks or constantly too high levels, taking the signal level down automatically. Of course this feature does not affect the sound quality in any way when working within the specifications of the loudspeaker, but only prevents inadequate input signals from breaking the loudspeaker.
Both driver and vent contribute to the total radiation of a reflex enclosure. Most radiation comes from the driver, but at the vent-enclosure resonant frequency the driver displacement amplitude is small and most of the radiation comes out of the vent.
The long, curved tube maximises airflow so deep bass can be reproduced without compression. The reflex tube terminates with a wide flare located on the rear of the enclosure, minimising port noises and providing excellent bass articulation.
The curvature of the tube has also been carefully designed to minimise any audible noise, compression or distortion. The inner end of the tube has proper resistive termination to minimise once again audible chuffing noise and air turbulence.
Our wide range of accessories and fixed mounting points on the back of our aluminium enclosure products offer solutions to all common installation situations. M6 support points have been integrated in the die-cast enclosure for wall and ceiling mounts.
With these features our loudspeakers have found their way to a variety of applications beyond the professional audio and studio world, for example in commercial and AV installation projects as well as in home environments all around the world.
There are several improvements in the new 83xx products. The capability to adapt to the room acoustics has been improved greatly, and, for example, 8320 and 8330 products provide four to five times higher number of tools for room response compensation compared to the 82xx products. The delay alignment capability has been expanded from about 80 ms to about 200 ms in 83xx. 83xx have been time-equalized internally to have a constant input-to-output delay above 400 Hz. 83xx products can level align by 60 dB.
All 83xx and 73xx products support distributed bass management, enabling the audio signal to be passed unmodified from the source and through the subwoofer into the monitors. 73xx subwoofers support a multichannel analogue audio signal and stereo AES/EBU digital audio signal.
With the Pro 8320, both quality and quantity are delivered without sacrifice. Print on lightweight to heavyweight stock, as well as NCR, synthetic media and oversized sheets. Produce crisp documents with near-offset print quality. More time is saved with straight-forward operations, including pre-set print configurations for common print tasks and a paper library.
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I am new to this and would like to know if an AMD FX-8320 and a GIGABYTE 78LMT-USB3 motherboard would work well with UNRAID. I am looking to build a very reliable NAS to store my Photography and Video work.
I don't have direct experience with either, but from the forums I know that many people have used the FX-8320 with unRAID and a good number have used the Gigabyte 78LMT-USB3 or similar. Combined with at least 4GB of RAM (8GB would be better) it should make a very good NAS. The only disadvantage, if you could call it that, is that the FX-8320 is actually more than you need for a basic NAS and therefore you could build a more power efficient system with newer parts. Since unRAID is free to try I'd setup a system with the trial license and give it a go.
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